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Estimation of N Mineralization Potential and N Mineralization Rate of Organic Amendments in Upland Soil
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 Title & Authors
Estimation of N Mineralization Potential and N Mineralization Rate of Organic Amendments in Upland Soil
Shin, Jae-Hoon; Lee, Sang-Min; Lee, Byun-Woo;
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 Abstract
Management of renewable organic resources is important in attaining the sustainability of agricultural production. However, nutrient management with organic resources is more complex than fertilization with chemical fertilizer because the composition of the organic input or the environmental condition will influence organic matter decomposition and nutrient release. One of the most effective methods for estimating nutrient release from organic amendment is the use of N mineralization models. The present study aimed at parameterizing N mineralization models for a number of organic amendments being used as a nutrient source for crop production. Laboratory incubation experiment was conducted in aerobic condition. N mineralization was investigated for nineteen organic amendments in sandy soil and clay soil at , , and . N mineralization was facilitated at higher temperature condition. Negative correlation was observed between mineralized N and C:N ratio of organic amendments. N mineralization process was slower in clay soil than in sandy soil and this was mainly due to the delayed nitrification. The single and the double exponential models were used to estimate N mineralization of the organic amendments. N mineralization potential and mineralization rate k were estimated in different temperature and soil conditions. Estimated ranged from 28.8 to 228.1 and k from 0.0066 to 0.6932. The double exponential model showed better prediction of N mineralization compared with the single exponential model, particularly for organic amendments with high C:N ratio. It is expected that the model parameters estimated based on the incubation experiment could be used to design nutrient management planning in environment-friendly agriculture.
 Keywords
Nitrogen mineralization;Organic amendment;Incubation experiment;Model;Upland soils;
 Language
Korean
 Cited by
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